On earth, the force would be 116.845 pounds (rounded).
That force is exactly equal and opposite to the person's weight. If the sum of the forces
on the bottom of his feet were not zero, then he would be accelerating vertically.
In orbit, you would not exert any force on a scale since you are in free fall. This is because both you and the scale would be experiencing the same gravitational force, causing you to float weightlessly.
Your weight stays the same when you stand on one foot on the scale. The scale measures the force you exert on it due to gravity, so your weight will remain constant regardless of how you distribute your weight on the scale.
The two forces that compress a spring inside a weighing scale are the force of gravity acting on the person standing on the scale and the reaction force exerted by the spring in the scale to counteract the force of gravity. This compression of the spring is used to measure the weight of the person.
As the elevator moves upward, the reading on the scale will temporarily increase. This is because the scale measures the force exerted by the person standing on it, which includes their weight and an additional force due to the upward acceleration of the elevator.
When the man pulls on his shoelaces while standing on the scale, the scale reading will not change. This is because the force he is exerting by pulling on his shoelaces is an internal force within his body and does not affect the normal force acting on him from the scale. The scale measures the normal force acting on the man, which is equal to his weight, regardless of any internal forces he may be exerting.
In orbit, you would not exert any force on a scale since you are in free fall. This is because both you and the scale would be experiencing the same gravitational force, causing you to float weightlessly.
Your weight stays the same when you stand on one foot on the scale. The scale measures the force you exert on it due to gravity, so your weight will remain constant regardless of how you distribute your weight on the scale.
The two forces that compress a spring inside a weighing scale are the force of gravity acting on the person standing on the scale and the reaction force exerted by the spring in the scale to counteract the force of gravity. This compression of the spring is used to measure the weight of the person.
As the elevator moves upward, the reading on the scale will temporarily increase. This is because the scale measures the force exerted by the person standing on it, which includes their weight and an additional force due to the upward acceleration of the elevator.
When the man pulls on his shoelaces while standing on the scale, the scale reading will not change. This is because the force he is exerting by pulling on his shoelaces is an internal force within his body and does not affect the normal force acting on him from the scale. The scale measures the normal force acting on the man, which is equal to his weight, regardless of any internal forces he may be exerting.
The number will lower because you are lifting yourself up, thus causing the number on the scale to go down. The force of you pushing on the sink is the counter force to the gravitational force of your body. This means your putting force on the sink and going up. Hope I helped! ;)
No, lifting one foot while standing on a scale does not change your weight. The scale measures the force exerted downward on it, regardless of how many feet are on it.
When you stand on tiptoes on a bathroom scale, there is an increase in the reading on the scale. This happens because you are effectively pushing down harder on the scale when standing on your tiptoes, increasing the force it measures.
120 pounds-force = 533.43 newtons (rounded)The weight of a normal early-teen boy.The weight of a very skinny adult woman.
The curve of the earth is so that you would fall and the earth would curve away putting you in a permanant state of freefall. This would give the illusion of zero gravity and you would weigh nothing.
A spring scale can be used to measure the force or weight exerted on it. This can include measuring the weight of objects, the force required to stretch or compress a spring, or the force exerted by a person pulling or pushing on the scale.
You can measure the amount of gravitational force being exerted on your body by standing on a bathroom scale and weighing yourself.